Abstract: A rotary magnetic motor having a rotor configured to magnetically interact with a stator to obtain rotation of the rotor about its axis. The stator has a magnetic structure of a generally involute shape around the axis of rotation. The stator magnetic structure has a plurality of permanent magnets defining a first magnetic face of a first polarity. The rotor has a magnetic structure of a generally circular shape around the axis and inside the stator magnetic structure. The rotor has a plurality of permanent magnets defining a second magnetic face of a second polarity. The magnetic attraction and repulsing of the aligned magnetic faces with a progressively narrowing radial gap, resulting from the involute shape, rotate the rotor inside the stator. A magnetic pulse mechanism discharges a magnetic pulse of the first polarity to provide an additional pull to continue the rotation of the rotor through its full cycle.

Abstract: The present invention relates to an electric machine, in particular a brushless permanent magnet motor, provided with a rotor and a stator which has a plurality of teeth with winding phases provided thereon, wherein each winding phase has at least four windings, wherein, of the at least four windings of a winding phase, in each case two windings are connected in series with one another, and wherein these windings which are connected in series are connected in parallel. The present invention also relates to a steering device.

Abstract: Provided is a field pole magnet to be installed in a rotor or a stator of a permanent magnet rotary machine, the field pole magnet including: multiple magnet pieces (31 to 34) formed by breaking and dividing a single permanent magnet; and at least one magnet-piece holding member (40) configured to hold these magnet pieces (31 to 34).

Abstract: An energy harvester is provided. The energy harvester includes a permanent magnet and a coil. At least one of the permanent magnet and coil rotate completely about an axis such that relative movement between the permanent magnet and the coil is realized to generate an electrical current for use in powering a device.

Abstract: There is provided a vibration motor including: a housing having one open surface; a permanent magnet disposed in an internal space of the housing and interacting with a coil to generate electromagnetic force; an elastic member formed in the housing; a mass member coupled to the elastic member to perform resonant movement through the electromagnetic force; a cover covering the one open surface of the housing; and an extension part extended from the one open surface of the housing in a height direction thereof and compressed with the cover to closely attach the housing and the cover to each other.

Abstract: An electric machine includes a plurality of teeth separated by a plurality of slots positioned on an armature of the electric machine. Each of the teeth may include at least one bifurcation. A plurality of magnets may be arranged on a main field of the electric machine to form an axial array group. The magnets in the axial array group may be arranged in the main field with respect to each other to create a multi-stepped arrangement having a predetermined step angle. The step angle is determined based on the positioning of the bifurcations and the slots.

Abstract: A permanent magnet apparatus includes a rotor structure and a stator structure. The rotor structure has a first permeance element and a plurality of first magnetic elements. The outer periphery of the first permeance element has a plurality of grooves which are disposed separately. The first magnetic elements are disposed correspondingly in the grooves. The stator structure is disposed at the outer periphery of the rotor structure, and includes a second permeance element and a plurality of second magnetic elements around the rotor structure.

Abstract: An alloy material for an R-T-B-based rare earth permanent magnet, including (i) an R-T-B-based alloy composed of R being two or more members selected from rare earth elements, T being a transition metal that essentially contains Fe, B and unavoidable impurities, and in which the Dy content is more than 10% by mass and less than 31% by mass, and (ii) a metal powder. Also disclosed is a method for producing an R-T-B-based rare earth permanent magnet and a motor provided with the R-T-B-based rare earth permanent magnet.

Abstract: A magnetic propulsion system comprising: a cylinder; a first plurality of magnets inserted through the cylinder, where the magnets protrude into the interior of the cylinder; a series of disks aligned through the interior of the cylinder; and a second plurality of magnets extending from the exterior edge of each disk. The first plurality of magnets may protrude into the cylinder at an angle. A shaft extends through each disk in the interior of the cylinder. Each respective pole of the first plurality of magnets equates to each pole of the second plurality of magnets to create the propulsive motion.

Abstract: A method and apparatus for energy generation and conservation uses magnets to repetitively provide rotational mechanical energy. An actuator arm and coupled magnet is inserted into a rotating plane defined by other magnets which are positioned to do work based on the electro-magnetic relationships among the magnets. In one aspect, the magnets are actually comprised of a plurality of magnets so as to create a specific magnetic field. In another aspect, an actuator magnet moves in relation to a drive magnet and follows a path as perpendicular as possible to the magnetic field of the drive magnets. Consequently, a minimal energy path is taken through the magnetic field and a relatively small amount of input energy is required to operate the device. Using minimal energy to create potential energy also enhances the apparatus by minimizing the extinction of motion therein due to friction while powering other mechanisms.

Abstract: A system accepts outside kinetic energy in various forms such as wind, rain or waterfall and produces electricity by use of traditional coils and magnets or other means. During lulls in obtaining outside kinetic energy, a wind wheel, water wheel or arm system will slow down and eventually stop. A system of magnets installed upon an arm system and upon a surrounding stationary housing 800 assists in rotating an arm system such that the arm system will require additional time to stop after a lull in outside kinetic energy. The artful placement and orientation of stationary housing magnets 250 in relation to moving arm magnets 200 assists in rotating an arm system powered by outside kinetic forces. The angles of the stationary housing magnets urge the arm magnets to move in the desired direction 900 of rotation. The system increases mechanical efficiency.

Abstract: A repulsive force conversion drive system for centrifugal force conversion to drive a load. A operational load to be driven by movement and provide external power due to movement of the operational load. A rotary repulsive force conversion drive connected to the operational load, such that the operational load moves in a first linear direction due to centrifugal force of rotating mass of the rotary repulsive force conversion drive. A linear repulsive force conversion drive connected to the operational load, the linear repulsive force conversion drive connected to the operational load such that the operational load moves is a second linear direction that is opposite the first linear direction on command from the linear repulsive force conversion drive.

Abstract: In one embodiment, a permanent magnet includes a composition represented by R(FepMqCur(Co1-p-q-r)z, (R: rare earth element, M: at least one element selected from Ti, Zr and Hf, 0.3<p?0.45, 0.01?q?0.05, 0.01?r?0.1, 5.6?z?9), and a metallic structure including a Th2Zn17 crystal phase, a grain boundary phase and a platelet phase. A spatial distribution of Cu concentration in the grain boundary phase is set to 5 or less in standard deviation.

Abstract: In one embodiment, a permanent magnet includes a composition represented by RpFeqMrCusCo100-p-q-r-s (R: rare earth element, M: at least one element selected from Zr, Ti and Hf, 10?p?13.5 atomic %, 28?q?40 atomic %, 0.88?r?7.2 atomic %, 4?s?13.5 atomic %), and a metallic structure in which a composition region having an Fe concentration of 28 mol % or more is a main phase. A Cu concentration in the main phase is 5 mol % or more.

Abstract: A gravity-assisted self-rotating device includes a support unit, a magnet unit located over the support unit, and a rotating unit pivotally turnably mounted on the support unit. The support unit has a bottom and a top extended in a direction opposite to the bottom. The magnet unit and the support unit together define a rotation space for the rotating unit to rotate therein. The gravity-assisted self-rotating device can be applied to a power generating module with a coil unit of the latter mounted on the rotating unit. With these arrangements, the gravity-assisted self-rotating device and the power generating module using same are able to automatically generate electric power output to achieve the purpose of energy saving and environmental protection.

Abstract: A device for providing rotational torque includes a stator with a permanent magnet rotatably mounted contained within, a rotor arranged on one side of the stator, a pair of permanent magnets rotatably mounted on oppositely spacing sides of the rotor, which stator and rotors are arranged with gaps left therebetween in an axial direction of the driveshaft, the rotor being mounted to the driveshaft. For further acceleration of the rotor, there are mounted several permanent magnets in the stator housing, arranged in a circumferential arrangement relative to the rotor. These acceleration magnets are arranged such that the size increases with each acceleration magnet approaching the stator magnet.

Abstract: The embodiments of the invention generally relate to a novel magnet arrangement to further enhance the performance of the array. The new arrangement of magnets (for example, five configurations) can result in significantly much higher percentage gain in magnetic flux with respect to the largest magnetic flux of a component magnet, as compared to Halbach array configurations.

Abstract: A variable electrical generator (20) is operable to convert mechanical motion to electrical power. The generator (20) includes at least a stator element (60) and a rotor element (50) including coils (320) and magnets (90). The generator (20) includes a configuration of modules (80) including the coils (320) for generating wavelets (30) in response to the coils (320) interacting magnetically with the magnets (90), and a control arrangement (70) for combining the wavelets (30) for generating a composite synthesized power output (10) from the generator (20). A method of maintaining a variable generator (20) includes steps of: (a) determining operating status of modules (80) of the generator (20); (b) unplugging and replacing one or more defective modules (80) as identified in step (a).

Abstract: Disclosed herein are embodiments of devices, systems, and methods for converting magnetic energy into one or more other forms of energy, or stated otherwise, for deriving power in a desired format from magnetic energy. In one system, energy provided by a magnetic field of a magnetic source is converted into rotational energy of one or more components of a system. The system can include a magnetic source that is coupled with a rotational component so as to instigate and/or maintain rotation of the component, and is decoupled from the component due at least in part to torque provided by another magnetic source.

Abstract: The present invention relates to improving the efficiency of electric motors by utilizing the repulsive force between the same poles of adjacent permanent magnets. The invention comprises: a rotating magnet and a fixed magnet, wherein the same poles of said magnets are placed to face each other; a magnet control bundle inserted into a side of the fixed magnet; and an electromagnet and a repulsion plate inserted between the space separating the rotating magnet as it approaches the fixed magnet, such that the electric current from the electromagnet off-sets the repulsive force generated therein, and wherein said repulsion plate maximizes the repulsion force when the rotating magnet moves away from the center of the fixed magnet and moves towards the side of the fixed magnet.

Abstract: The embodiments of the invention generally relate to a novel magnet arrangement to further enhance the performance of the array. The new arrangement of magnets (for example, five configurations) can result in significantly much higher percentage gain in magnetic flux with respect to the largest magnetic flux of a component magnet, as compared to Halbach array configurations.

Abstract: The present invention relates to a power-generating apparatus using gravity and magnetic force. Rotors are fixed at either side of a main shaft, and heavy weighted bodies are arranged at a plurality of levers which are deployed during a descending operation and folded up during an ascending operation performed in the course of rotation of the rotor, such that the weighted bodies are unbalanced in a horizontal direction. An arch-shaped magnetic levitation unit is arranged adjacent to and above the rotors. The heavy weighted body located at the position of mechanical energy is levitated by means of the magnetic force from the magnetic levitation unit at a starting point of the magnetic force, such that a wheel is brought into contact with and rolls on a rail of a magnetic support, and the heavy weighted body levitates in the air at the position of mechanical energy.

Abstract: Methods of manufacturing laminated, rare earth, permanent magnets with dielectric layers having increased electrical resistivity and improved mechanical strength suitable for use in high performance, rotating machines comprising sequentially laminating permanent magnet layers with transition and/or diffusion reaction layers; wherein the transition and/or diffusion reaction layers surround sulfide-based dielectric layers, thereby avoiding direct contact between the dielectric layers with permanent magnet layers.

Abstract: A magnetic rotary power source which can provide rotary power without energy consumption is disclosed. The power source includes a housing with two parallel spindles. Each spindle is disposed with a gear. The two gears have the same diameter and engage with each other. Each gear is disposed with a permanent magnet. The two magnets are arranged in a specific angular relation, and outer ends of the magnets are the same pole to generate repulsion. When one of the gears is rotated to make the magnets approach, the two gears will automatically rotate by the repulsion between the magnets. The two gears will continuously rotate when they rotate one revolution to make the magnets approach again. Thus, the gears can go round and round repeatedly.

Abstract: The present invention relates to rotary motors in which the rotational motion of the motor is provided by the attractive (or repulsive) forces between a pair of cooperating magnets in response to tilting of the motor axle.

Abstract: Provided is a rare earth sintered magnet 10 comprising a group of main phase grains 2 each composed of an R-T-B-based rare earth magnet comprising a core 4 and a shell 6 covering the core 4, wherein a thickness of the shell 6 is 500 nm or less, R includes a light rare earth element and a heavy rare earth element, and a Zr compound 8 is present in a grain boundary phase 7 of the group of main phase grains 2 and/or the shell 6. Also provided are a motor comprising the rare earth sintered magnet 10 and an automobile comprising the motor.

Abstract: The present invention provides a sintered magnet having superior residual magnetic flux density and coercive force. The sintered magnet of the present invention comprises a group of R-T-B based rare earth magnet crystal particles 2 having a core 4 and a shell 6 covering the core 4, the mass ratio of a heavy rare earth element in the shell 6 is higher than the mass ratio of a heavy rare earth element in the core 4, and the thickest part of the shell 6 in the crystal particles 2 faces a grain boundary triple junction 1. A lattice defect 3 is formed between the core 4 and the shell 6.

Abstract: A permanent magnet motor having three chambers aligned end to end where each chamber has a bar magnet. The north pole of the bar magnet in the center chamber faces the north pole of the bar magnet in the chamber to its right and the south pole of the bar magnet in the center chamber faces the south pole of the bar magnet in the chamber to its left. Structure is provided to move the end magnets away from the center magnet and, by means of springs, alternately sequentially snap the end magnets toward the center magnet to drive the center magnet back and forth in its chamber. Shaft members which are connected to gears are provided to control the movement of the end magnets and to convert the back and forth motion of the center magnet to a rotary motion.

Abstract: An electromagnetic motor having a frame, and at least one disc rotatably mounted to the frame. At least one permanent magnet is mounted on the disc, and at least one electromagnet is mounted to the frame in magnetic proximity to the at least one permanent magnet. A battery is electrically coupled to the motor for powering the at least one electromagnet. A switch controls electrical power between the battery and the at least one electromagnet, and a sensing means is provided for controlling the switch to activate the at least one electromagnet with respect to the at least one permanent magnet to cause the at least one disc to rotate. Preferably, a generator is mechanically coupled to the motor and electrically coupled to the battery for generating electrical power to the battery, and a renewable energy source such as a photovoltaic cell is electrically coupled to the motor to supplement any net electrical loss.

Abstract: A method of attaching a magnet to a rotor or a stator of an electrical machine is provided. The method includes arranging a magnet along a surface of the rotor or stator; arranging a pair of retainers, one on each side of the magnet; enclosing the rotor or stator, magnet and retainers in a vacuum bag; and performing vacuum evacuation to consolidate the magnet to the retainers by means of adhesive. A magnet mounting arrangement for a rotor or a stator of an electrical machine and a wind turbine with a generator including a rotor and a stator and such a magnet mounting arrangement are also provided.

Abstract: A magnetic piston includes a housing having a tapered bore extending along an axis thereof and a piston having a tapered outside wall mating with the tapered bore of the housing for providing radial and longitudinal movement within the tapered bore about a rotational axis of the piston. A shaft is connected to the piston for movement along its longitudinal axis thereof, wherein the axes of the tapered bore and piston are generally aligned along the longitudinal axis. A first set of magnets is embedded within the outside wall of the piston and a second set of magnets is embedded within a surface of a wall forming the bore of the housing. The polarity for each of the magnets within the sets provides attracting and repelling forces causing rotation of the piston relative to the housing and a linear movement of the shaft along the longitudinal axis.

Abstract: A method and device for energy conversion from a moving fluid to electrical energy. The device includes at least one magnetic structure, at least one coil structure, a rotating component, and a rotary to linear motion conversion mechanism. The at least one coil structure includes electrically conductive material. The rotating component rotates relative to a corresponding axis of rotation in response to forces applied by the moving fluid on a structure coupled to the rotating component. The rotary to linear motion conversion mechanism is coupled to the rotating component. Rotation of the rotating component around the corresponding axis of rotation generates a relative linear displacement between the at least one magnetic structure and at least one coil in the at least one coil structure. The relative linear displacement between the at least one magnetic structure and the at least one coil generates electrical energy in the at least one coil structure.

Abstract: A magnet machine may translate or rotate with one element stationary and another element moving. One element has mounted thereon a plurality of magnets arranged in a sequenced array extensive in the direction of operation, the magnets fixed with N-pole magnet faces opposing S-pole magnet faces across gaps between the magnets, and side faces arranged in a plane. A second element has a single or integrated magnet mounted with one pole face positioned parallel to, and gapped apart from the plane of the plurality of magnets. This pole face is disrupted by an array of spaced apart grooves. The direction of motion is in the plane. A solenoid may be mounted within one or more of the grooves so provide a staring force or a braking force to the moving element.

Abstract: A rotating device having a stator and rotor, in which paired arcs of staggered magnets are affixed to the rotor surface, such that the staggered magnets are off-set the center-line of the rotor. Stator magnets, located on the stator, are also affixed in an off-set manner. During rotation, the repulsive interaction between stator and rotor magnets is off-set the centreline of the rotor, resulting in a tangential force on the rotor, which imparts angular momentum on the rotor, thereby inducing rotation.

Abstract: A power generator has a pendulum extending downwardly from an axle. The pendulum includes a plurality of bar magnets oriented parallel to the axle and being arranged in an arc equidistant and coaxial from the axle. The plurality of bar magnets are arranged in an alternating pole arrangement. The axle is mounted between two base units with each base unit including a pickup coil positioned proximate to the arc. The pickup coils generate an alternating electrical current as the bar magnets pass thereover.

Abstract: Apparatuses for coupling magnetic forces into motive force are disclosed having a spinner arm, a power bed, and a hub. The spinner arm has a helical array of magnets mounted about a shaft. The apparatus also has a rotational timing coupling such as a stationary rack and spinner shaft pinion. The power bed has two arrays of magnets defining a power track. The spinner arm shaft may be mounted in the hub, allowing rotation of the spinner arm about its axis. The hub is further constructed to allow the hub and spinner arm to move translationally within a plane parallel to a plane containing the power bed. High coercive force magnets in the spinner and power bed interact to displace the spinner arm and rotate it about its axis. Multiple spinner arms and power beds may be arranged to move a load linearly or drive a load about an axis.

Abstract: A permanent magnet apparatus has coacting intercourse magnetic flux fields that cause rotation of an output shaft assembly. Permanent magnets on the output shaft assembly are located adjacent drive magnets that reciprocate to alter the magnetic flux fields. A power transmission connects the output shaft assembly to the drive magnets to coordinate the rotation of the subject shaft assembly with the reciprocating motion of the drive magnets.

Abstract: A ferrite sintered magnet has a surface roughness Rz of 3.5 ?m or less. A method for producing a ferrite sintered magnet includes: mixing magnetic powders with at least a binder resin to obtain a magnetic powder mixture; injection molding the magnetic powder mixture inside of a mold having a surface roughness of a surface in contact with the magnetic powder mixture of 2.0 ?m or less with a magnetic field applied to the mold, to obtain a molded body; and sintering the molded body.

Abstract: In an embodiment, a permanent magnet includes a composition of RpFeqZrrMsCutCo100-p-q-r-s-t (R: rare-earth element, M: at least one element selected from Ti and Hf, 10?p?15, 24?q?40.5, 1.5?r?4.5, 0?s?3, 1.5?r+s?4.5, and 0.8?t?13.5 (atomic %)). The permanent magnet has a texture including a main phase which is formed of a Th2Zn17 type crystal phase, and a grain boundary phase which has a crystal phase having a Zr concentration of from 4 atomic % or more to 35 atomic % or less.

Abstract: In order to provide a compact and highly efficient electric machine having high power density, an electric machine excited by permanent magnets, comprising a stator and a rotor, is provided. The stator comprises a coil arrangement and the rotor has permanent magnet elements. The coil arrangement comprises a winding and surrounds a flux yoke. The flux yoke comprises at least one limb. Between every two limbs, flux guide parts are arranged that are spaced apart from each other and that are aligned with the ends of the limbs. Neighbouring permanent magnet elements have opposing magnetic orientations and are combined to form a magnet disc. On the side facing away from the limbs of the permanent magnet elements, flux guide parts are arranged. The limbs and the flux guide parts face the permanent magnet elements forming an air gap.

Abstract: One embodiment of an automated power generator has one base board (10), three magnet boards (48), two coil boards (58), driving boards (68), DC motor (70) with a set of transmission device including two pulleys (70A), (70B) and belt (70C), and a break (80). Base board (10), coil boards (58), fixed board (64) of driving boards (68) are mounted on four threaded rods (20), whereas magnet boards (48) and rotating board (62) of driving board (68) are mounted on shaft (30), Base board (10) is at the very bottom and driving boards (68) is at the top, with five total layers between them—two coil boards (58) sandwiched by three magnet boards (48). Other embodiments are described and shown.

Abstract: A device for imparting rotation to a rim using magnetic attraction to induce gravitational pull upon a rolling component to a higher position upon an interior surface of a rim thereby inducing a roll of said rim in a direction of an adjacent magnet. The device may be engaged to generators and the like to provide rotational power and is adapted to function as a toy which will roll across a support surface in either of two directions.

Abstract: The Toroidal Inductance Generator is a machine that creates electrical energy by orbiting three fields of multiple magnets inside and around, a copper wire toroidal coil. The toroidal generator is comprised of a copper wire wound toroidal coil, with a vessel core, containing a plurality of free moving rare earth magnets sealed inside the vessel core assembly. A magnetic shroud is affixed to the protruding shaft of an existing rotary means. This magnetic shroud and rotary means are concentrically positioned to rotate a plurality of magnets immediately adjacent to both the outside and the inside diameter of the toroidal coil. The vector fields of the shroud magnets overlap and interact with the vector fields of the magnets sealed inside the copper wire toroidal core. The internal magnets are caused to follow the rotating field from the applied external coercive magnetic force. The three combined orbits all contribute to the generation of electricity within the copper wire toroidal.

Abstract: An angle detecting apparatus includes a rotor fixed to a rotating shaft, a pair of magnetic sensors arranged close to the outer periphery of the rotor so as to have a difference in angle (?/2) with respect to the center of rotation of the rotor, a differential operational circuit performing differential operation on detection signals output by the magnetic sensors to output a differential signal, and the angle calculating circuit calculating the angle of rotation of the rotating shaft based on the differential signal. The planar shape of the rotor is such that the sum of the distances between the center of rotation and the respective two points where two straight lines crossing at the center of rotation at a crossing angle of (?/2) cross the outer periphery of the rotor is constant, and the planar shape is symmetric with respect to a straight line passing through the center of rotation.

Abstract: The invention relates to a magnet carrier (1) for a pole housing (10) for fastening magnets (111, 112) to a pole housing wall (101), wherein the magnet carrier (1) can be arranged between at least two magnets. The magnet carrier (1) comprises a positioning element (12, 22, 32, 42, 52) and a securing element (13, 23, 33, 43, 53). The positioning element (12, 22, 32, 42, 52) can be arranged on the pole housing wall (101). Furthermore, the positioning element (12, 22, 32, 42, 52) is designed to fix the at least two magnets (111, 112). The securing element (13, 23, 33, 43, 53) can be arranged on the pole housing wall (101) with the pole housing wall opposite of the positioning element (12, 22, 32, 42, 52). The securing element (13, 23, 33, 43, 53) is designed to be in engagement with the positioning element (12, 22, 32, 42, 52) and to thereby hold the positioning element (12, 22, 32, 42, 52) on the pole housing wall (101).

Abstract: The present disclosure relates to a magnetic motor including a drive magnet, a motion magnet, and an acceleration field. The drive magnet includes magnetic shielding, typically on a portion thereof, altering the magnetic field of the drive magnet. In some embodiments, the motion magnet has a cross-section that is generally in the shape of a ‘V’ or ‘A’. The acceleration field is created by the interaction between the drive magnet and the motion magnet as the motion magnet is passed through the altered magnetic field of the drive magnet. The altered magnetic field of the drive magnet may often be near a first end of the drive magnet. In further embodiments, the motion magnet can be operably coupled to an output shaft and rotate around the central axis of the output shaft. The present disclosure, also relates to a device, including the magnetic motor, for generating energy from a turbine.

Abstract: In an embodiment, a magnet material includes a composition represented by Rx(Nb1-pZrp)yBZ(T1-qMq)100-x-y-z, where R is an element selected from rare earth elements and 50 at. % or more of R is Sm, T is Fe alone or a mixture of Fe and Co containing 50 at. % or more of Fe, M is at least one element selected from Ni, Cu, V, Cr, Mn, Al, Si, Ga, Ta and W, p is 0?p?0.5, q is 0?q?0.2, x is 4?x?15 at. %, y is 1?y?4 at. %, z is 0.001?z<4 at. %, and a structure having a TbCu7 crystal phase as a main phase.

Abstract: A rare earth magnet molding (1) of the present invention includes rare earth magnet particles (2), and an insulating phase (3) present among the rare earth magnet particles. Segregation regions (4) in which at least one element selected from the group consisting of Dy, Tb, Pr and Ho is segregated are distributed in the rare earth magnet particles (2). Accordingly, the rare earth magnet molding that has excellent resistance to heat in motor environments or the like while maintaining high magnetic characteristics (coercive force) is provided.

Abstract: In embodiments of the present invention improved capabilities are described for a turbine system that combines capturing airflow via turbine blades to turn a shaft with rare earth magnet drive of the shaft. The rare earth magnetics are disposed in two rings to generate rotational energy that turns the shaft.

Abstract: The Pulsating Permanent Magnet Powered Engine was designed and built as a new energy source by harnessing the strong magnet fields developed by magnets. Emphasis added when using Rare Earth Neodymium magnets. In this development the need to insulate, isolate and contain those magnet force fields became a challenge. This lead to the development of the bellcrank system. To gain horse power, the rating requires moving 550 pounds at a rate of 1 foot per second. The bellcrank system enables both the distance and the pound requirements to be met as qualifications for horse power. The principles of thermodynamics, stated as power in and power out do not apply here. Permanent magnets are charged with a very high electrical current, much like charging a battery but the battery power depletes with use, while the magnet does not, but both were charged to begin with.